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Program Highlights

Observation of Majorana fermions in a ferromagnetic chains on a superconductor

Topological superconductors are a distinct form of matter that is predicted to host boundary Majorana fermions. These quasi-particles are the emergent condensed matter analogs of the putative elementary spin-1/2 particles originally proposed by Ettore Majorana in the 1930’s with the intriguing property of being their own

Immucor Acquires Sentilus for Microarray-Based Diagnostics Technology

Immucor, Inc., a global leader in transfusion and transplantation diagnostics, has acquired Sentilus, Inc., a company focused on developing a novel, inkjet-printed antibody microarray-based technology called Femtoarrays™.

Shape-Shifting Liquid Metal Becomes a Reality

Terminator 2 is widely remembered for its metal shape-shifting villain. Impervious to bullets, explosives, and fire, theT-1000 robot was capable of changing shape at will. Researchers at the North Carolina State University have taken a step towards making science fiction a reality by developing a technique for controlling the surface tension of liquid metals using very low voltages.

Magnetic Properties of Periodically Organized Cobalt Frameworks

Discovery: Magnetic properties of cobalt films can be optimized through nanoscale structuring and thermal annealing.

An Implicit Solvent Ionic Strength (ISIS) Method to Model Polyelectrolyte Systems with Dissipative Particle Dynamics

Researchers from North Carolina State University have developed a novel and versatile

Heterogeneously integrated ferroelectric optical modulator on silicon with high Pockels’ coefficient

The collaboration among Hong Tang, Charles Ahn, and Fred Walker’s groups recently realized a new type of electro-optic modulator based on epitaxial ferroelectric BaTiO3 on silicon. A very high Pockels’ coefficient, up to 213 pm/V, was demonstrated, a record value that is more than six times larger than found in commercial optical modulators based on lithium niobate.

Observation of a Dissipation-Induced Classical to Quantum Transition

In this work, we study a novel dynamical phase transition of light, where photon-photon interactions and dissipation into the environment are key aspects of the physics. Together they give rise to a transition from a region of classical behavior into a regime where quantum effects dominate. The transition was observed in a Jaynes-Cummings dimer built

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