We demonstrate serial electron transport through a donor-based triple quantum dot in silicon fabricated with nanoscale precision by scanning tunnelling microscopy lithography. From an equivalent circuit model, we calculate the electrochemical potentials of the dots allowing us to identify ground and excited states in finite bias transport. Significantly, we show that using a scanning tunnelling microscope, we can directly demonstrate that a ∼1 nm difference in interdot distance dramatically affects transport pathways between the three dots
We study the influence of asymmetric tunneling rates of a lateral quantum dot connected to source an...
We have fabricated organically capped stable luminescent silicon nanocrystals with narrow size distr...
Spin states of the electrons and nuclei of phosphorus donors in silicon are strong candidates for qu...
We investigate multi-qubit device architectures for scalable donor-based quantum computing in silico...
We report on electronic transport measurements through a silicon double quantum dot consisting of a ...
Achieving controllable coupling of dopants in silicon is crucial for operating donor-based qubit dev...
Due to a continuous device downscaling, a precise control of dopant placements has become a critical...
Spin states of the electrons and nuclei of phosphorus donors in silicon are strong candidates for qu...
We study the details of electronic transport related to the atomistic structure of silicon quantum d...
We review the orthodox theory of single charge tunneling in a semiconductor quantum dot and we exten...
This paper presents an overview on recent topical studies on electronic properties and device applic...
In this paper we describe the science of electron transport through nanostructured schemas. We descr...
A (sub) monolayer of semiconductor dots is deposited on a metal electrode. This system is used as wo...
A four-terminal donor quantum dot (QD) is used to characterize potential barriers between degenerate...
We investigate the gate-induced onset of few-electron regime through the undoped channel of a silico...
We study the influence of asymmetric tunneling rates of a lateral quantum dot connected to source an...
We have fabricated organically capped stable luminescent silicon nanocrystals with narrow size distr...
Spin states of the electrons and nuclei of phosphorus donors in silicon are strong candidates for qu...
We investigate multi-qubit device architectures for scalable donor-based quantum computing in silico...
We report on electronic transport measurements through a silicon double quantum dot consisting of a ...
Achieving controllable coupling of dopants in silicon is crucial for operating donor-based qubit dev...
Due to a continuous device downscaling, a precise control of dopant placements has become a critical...
Spin states of the electrons and nuclei of phosphorus donors in silicon are strong candidates for qu...
We study the details of electronic transport related to the atomistic structure of silicon quantum d...
We review the orthodox theory of single charge tunneling in a semiconductor quantum dot and we exten...
This paper presents an overview on recent topical studies on electronic properties and device applic...
In this paper we describe the science of electron transport through nanostructured schemas. We descr...
A (sub) monolayer of semiconductor dots is deposited on a metal electrode. This system is used as wo...
A four-terminal donor quantum dot (QD) is used to characterize potential barriers between degenerate...
We investigate the gate-induced onset of few-electron regime through the undoped channel of a silico...
We study the influence of asymmetric tunneling rates of a lateral quantum dot connected to source an...
We have fabricated organically capped stable luminescent silicon nanocrystals with narrow size distr...
Spin states of the electrons and nuclei of phosphorus donors in silicon are strong candidates for qu...