Revolutionary Method Allows Large Scale Stacking of Superconductor Films for Groundbreaking Applications

Titel: Durchbruch in der Herstellung von vielschichtigen Van-der-Waals-Supraleiter-Heterostrukturen Ein internationales Forscherteam hat einen wichtigen Fortschritt in der Produktion von vielschichtigen Van-der-Waals-Supraleiter-Heterostrukturen erzielt. Diese bahnbrechende Studie, veröffentlicht in der renommierten Fachzeitschrift Nature, bietet Möglichkeiten für die Entwicklung zukünftiger Funktionseinheiten und Anwendungen. Van-der-Waals-Heterostrukturen haben in den letzten Jahren erhebliche Aufmerksamkeit auf sich gezogen. Mit Tausenden von zweidimensionalen Materialien, die in verschiedenen Kombinationen gestapelt werden können, sind die Anwendungsmöglichkeiten scheinbar endlos. Doch bisher war die Herstellung dieser Heterostrukturen nicht skalierbar für praktische Anwendungen. Das Team entwickelte eine innovative Methode, um diese Herausforderung zu meistern. Sie entwickelten eine hoch-zu-niedrige Temperatur-Strategie zur kontrollierten Herstellung von …
Title: Breakthrough in the production of multi-layered van der Waals Superpale Heterostructures A international research team has made an important progress in the production of multi-layered van-der Waals sucroper heterostructures. This groundbreaking study, published in the renowned journal Nature, offers opportunities for the development of future functional units and applications. Van der Waals heterostructures have attracted considerable attention in recent years. With thousands of two -dimensional materials that can be stacked in different combinations, the possible uses are apparently endless. So far, however, the production of these heterostructures has not been scalable for practical applications. The team developed an innovative method to master this challenge. They developed a highly-to-low temperature strategy for the controlled production of ... (Symbolbild/natur.wiki)

Revolutionary Method Allows Large Scale Stacking of Superconductor Films for Groundbreaking Applications

Title: Vacation in the manufacture of multi-layered van-der Waals sucrophader-heterostructures

An international team of researchers has made an important progress in the production of multi-layered van-der Waals supral conductor heterostructures. This groundbreaking study, published in the renowned journal Nature, offers opportunities for the development of future functional units and applications.

van der Waals heterostructures have attracted considerable attention in recent years. With thousands of two -dimensional materials that can be stacked in different combinations, the possible uses are apparently endless. So far, however, the production of these heterostructures was not scalable for practical applications.

The team developed an innovative method to master this challenge. They developed a highly-to-low temperature strategy for the controlled production of stacks from multi-layered van-der Waals suler conductor heterostructures (VDWSH) at Wafer level. The number of layers of the two -dimensional superconductors in the VDWSHS can be controlled precisely. 27 double, 15 triple, 5 four times and 3 five times VDWSH films have been produced, with each block representing a 2D material.

Detailed morphological, spectroscopic and structural analyzes confirmed the presence of parallels, clean and atomic sharp VDW interfaces on a large scale, whereby only a minimum contamination between neighboring layers was determined. These intact VDW interfaces enable the production of superconducting (proximity induced superconductivity) and superconducting Josephson junctions in the centimeter range.

The possibilities of making multi -layered VDWSHS can easily be transferred to other situations with two -dimensional materials. This could accelerate the development of the next generation of functional units and a variety of applications.

This breakthrough in the manufacture of multi-layered van-der Waals sucrophery heterostructures will inspire experts and researchers in the field of naturopathy. The resulting developments could lead to new therapies and treatments based on the unique properties of these materials.

The full study can be found at: [1]

references:
[1] http://www.nature.com/articles/s41586-06404-x