Platform for the Accelerated Realization, Analysis, & Discovery of Interface MaterialsAn NSF Materials Innovation Platform
From Jun 23-25, PARADIM held an electron microscopy workshop that highlighted the current developments and new science that make next-generation instrumentation possible.
PARADIM (Platform for the Accelerated Realization, Analysis, and Discovery of Interface Materials) is a new materials innovation platform led by Cornell University. It is an NSF mid-scale instrumentation program supported in the Division of Materials Research. PARADIM seeks to advance fundamental understanding of oxide-based hetero-interfaces with a range of two-dimensional (2D) material systems including oxides, chalcogenides and graphene through transformational research and mid-scale investments in instrumentation for bulk and thin film crystal growth and characterization. Fabricating interfaces and heterostructures between complex oxides and 2D materials allows for the creation of an atomically-precise “active substrate” that can itself have novel electronic and magnetic functionality, such as ferroelectricity, ferromagnetism, or superconductivity. Creating interface materials with designed properties opens up untold degrees of freedom that may result in transformational evolutions in next generation electronics. PARADIM is a partnership between Cornell, Clark Atlanta University, Johns Hopkins University, and Princeton University. This platform marks the beginning of a new PARADIM in materials discovery.
Examples of new interface materials that can be created by users of the Platform for the Accelerated Realization, Analysis, and Discovery of Interface Materials (PARADIM). An image of cylindrical single crystals of strontium holmium oxide and titanium oxides. The crystals are several millimeters in diameter and several centimeters long. In the background is a high-resolution scanning transmission electron micrograph of an artificial material consisting of four monolayers of LaMnO3 followed by two monolayers of SrMnO3 (repeated many times), all grown on a SrTiO3 single crystal. Electron energy-loss spectroscopy edges were used to color the La atoms as green, Mn atoms red, and Ti atoms blue.
JHU will hold its 2nd summer school on the growth and design of bulk crystalline materials July 16-21, 2017. The school will feature a combination of hands-on experiences and lectures by internationally recognized crystal growth specialists and will cover a range of...
Click here for the 2017 Cornell PARADIM Summer School