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Program Highlights

“Shaken, not stirred”: Spin controlled with mechanical vibration
Cornell University
Spin resonance in diamond using a MEMS resonator

Atomic Break Dancing in the World’s Thinnest Glass
Cornell University

Electron microscopy reveals the fundamental steps of bending

Ordering Nanoscale Dots with Molecular Honeycombs
Cornell University

Designable Porous Organic Networks Represent A New Strategy for Nanoparticle Assembly

Launching Student Interest in Science
Cornell University
Scientists design experiments to increase excitement K-12 science education

Precise Stitching, Not Patch Size, Determines the Quality of Atomic Quilts
Cornell University
Intergrain stitching determines electrical conductance across graphene grain boundaries

The outstanding electronic and mechanical properties of single-atom-thick layers of carbon, so-called “graphene” films, make

Controlling and Imaging Electron Motions in Atomic-Scale Sandwiches
Cornell University
A new instrument allows the first imaging of the movement of electrons in artificial materials

A Better Type of Computer Memory Demonstrated
Cornell University
Newly discovered “giant” spin Hall effect enables simple and efficient magnetic memory

Visualizing the intricate electron pairing in iron-based superconductors
Cornell University
Correlated motion provides new clues to the magnetic origin of high-temperature superconductivity

Superconducting wires conduct electricity perfectly — without any energy losses — because

Patterned Graphene "Scrap" Grows into Continuous "Patchwork Quilt"
Cornell University

 

New technique produces heterojunctions in single-atom-thick graphene

A Better Way to Store Information in Computer Memory
Cornell University

 

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