In labs across Europe physicists are pushing the boundaries of how far we can cool the electrons in nano-fabricated circuits and quantum-enhanced devices. The cryogen-free revolution in dilution refrigeration has liberated researchers from a reliance on helium, a costly and non-renewable resource, and hugely expanded the numbers of cooling machines available for new science and quantum technology applications which exploit the properties of materials at kelvin and millikelvin temperatures
Cooling nanoelectronic devices below 10 mK is a great challenge since thermal conductivities become ...
Two-dimensional electron gases (2DEGs) with high mobility, engineered in semiconductor heterostructu...
Cooling of electronic devices below 1 mK is a challenging task, since the thermal coupling with the ...
In labs across Europe physicists are pushing the boundaries of how far we can cool the electrons in ...
Fragile quantum effects such as single electron charging in quantum dots or macroscopic coherent tun...
Here we review recent progress in cooling micro/nanoelectronic devices significantly below 10 mK. A ...
This thesis describes a novel cooling technique which allows the electrons within nanoelectronic dev...
Improved accessibility to the microkelvin temperature regime is important for future research in qua...
Of all parameters, determining the behaviour of a physical system in the laboratory, temperature is ...
Access to lower temperatures has consistently enabled scientific breakthroughs. Pushing the limits o...
We report the cooling of electrons in nanoelectronic Coulomb blockade thermometers below 4 mK. Above...
Cooling nanoelectronic structures to millikelvin temperatures presents extreme challenges in maintai...
Nanostructured samples serve as a playground of solid state physics due to their vast diversity of a...
On-chip demagnetization refrigeration has recently emerged as a powerful tool for reaching microkelv...
The frontiers of quantum electronics have been linked to the discovery of new refrigeration methods ...
Cooling nanoelectronic devices below 10 mK is a great challenge since thermal conductivities become ...
Two-dimensional electron gases (2DEGs) with high mobility, engineered in semiconductor heterostructu...
Cooling of electronic devices below 1 mK is a challenging task, since the thermal coupling with the ...
In labs across Europe physicists are pushing the boundaries of how far we can cool the electrons in ...
Fragile quantum effects such as single electron charging in quantum dots or macroscopic coherent tun...
Here we review recent progress in cooling micro/nanoelectronic devices significantly below 10 mK. A ...
This thesis describes a novel cooling technique which allows the electrons within nanoelectronic dev...
Improved accessibility to the microkelvin temperature regime is important for future research in qua...
Of all parameters, determining the behaviour of a physical system in the laboratory, temperature is ...
Access to lower temperatures has consistently enabled scientific breakthroughs. Pushing the limits o...
We report the cooling of electrons in nanoelectronic Coulomb blockade thermometers below 4 mK. Above...
Cooling nanoelectronic structures to millikelvin temperatures presents extreme challenges in maintai...
Nanostructured samples serve as a playground of solid state physics due to their vast diversity of a...
On-chip demagnetization refrigeration has recently emerged as a powerful tool for reaching microkelv...
The frontiers of quantum electronics have been linked to the discovery of new refrigeration methods ...
Cooling nanoelectronic devices below 10 mK is a great challenge since thermal conductivities become ...
Two-dimensional electron gases (2DEGs) with high mobility, engineered in semiconductor heterostructu...
Cooling of electronic devices below 1 mK is a challenging task, since the thermal coupling with the ...