News

An article in The Cornell Daily Sun highlights PARADIM’s mission to accelerate the discovery of new interface materials.

A novel strategy for the synthesis and purification of discrete, highly functionalized oligomer libraries in a 96-well, high-throughput format was developed.

To assess the potential of transition metal dichalcogenides (MDs) for future circuits, it is important to study the variation in key device parameters across a large number of devices. Here we benchmark device-to-device variation in field- effect transistors (FETs) based on wafer-scale monolayer MoS, and WS.

High entropy compounds are an emerging class of functional materials in which short range order enables superior combinations of properties not present in traditional pure or doped structures.

We present modulator designs based on graphene-metal hybrid plasmonic metasurfaces with highly enhanced light- graphene interaction in the nanoscale hot spots at pump and probe (signal) wavelengths. Based on this design concept, we have demonstrated high-speed all optical modulators at near and mid-infrared wavelengths (1.56 um and above Gum) with significantly reduced pump fluence (1-2 orders of magnitude) and enhanced optical modulation.

An invited perspective highlighting research in the high pressure domain at PARADIM was recently published in the Journal of Solid State Chemistry as part of a 50th anniversary special edition.

While previously, experimental studies of one-dimensional transform have been largely limited to earlier studies of thermal transport through single-walled carbon or boron nitride nanotubes, recent attempts have been made to probe thermal transport in quasi-1D van der Waals crystal nanowires, revealing interesting observations in the process.

Sr2RuO4 is the most disorder-sensitive superconductor known. It has also been a leading candidate for a novel type of quantum computer that would enable calculations to occur over much longer time scales before suffering decoherence than is the case for today’s superconductor-based quantum computers.

Substrates traditionally play a supporting role for the thin films grown upon them by providing purely structural support. Nonetheless for monolayer-thick transition metal dichalcogenides , the substrate plays an active role by providing or removing charge from the TMD layer in which it is in intimate contact.

This cohort of more than 20 fellows marks the official start of the BioPACIFIC MIP in-house research and training programs.