Developments in advanced manufacturing have promoted the miniaturization of
semiconductor electronic devices to a near-atomic scale, which continuously follows the'top …

At present, we observe a long-lasting process of miniaturization of electronic devices. The
ultimate limit for the miniaturization of electronic components is set by the atomic scale …

Molecular electronics is driven by the dream of expanding Moore's law to the molecular level
for next‐generation electronics through incorporating individual or ensemble molecules into …

Over the past two decades, various techniques for fabricating nano-gapped electrodes have
emerged, promoting rapid development in the field of single-molecule electronics, on both …

Molecular electronics seeks to incorporate molecular components as functional elements in
electronic devices. There are numerous strategies reported to date for the fabrication …

Creating functional electrical circuits using individual or ensemble molecules, often termed
as “molecular-scale electronics”, not only meets the increasing technical demands of the …

Molecular electronic devices have the potential to dramatically increase the density and
performance of integrated circuits. In order to realize this potential, reliable and scalable …

Molecular electronics has recently attracted a lot of attention due to promising application in
nanoscale electronic devices. In this review we highlight recent results in this field, focusing …

With the establishment of complementary metal‐oxide‐semiconductor (CMOS)‐based
integrated circuit technology, it has become more difficult to follow Moore's law to further …

The field of single-molecule electronics harnesses expertise from engineering, physics and
chemistry to realize circuit elements at the limit of miniaturization; it is a subfield of …