Uncharted ground in condensed matter physics offers immense opportunity

Solid materials, comprised of many billions of interacting ions and electrons, present boundless opportunities for discovery and create the basis of modern technology. The best known example is high-temperature superconductivity, in which electrons form bound pairs despite their electrical repulsion and flow without any resistance. Other, equally striking, emergent phenomena include: “heavy” electrons that appear to be hundreds or thousands of times more massive than free electrons; exotic “emergent particles” with properties different from any known elementary particle; and electrons that self-organize into complex spatial patterns, reminiscent of the behavior of molecules in a liquid crystal display. 
 
The exotic collective properties of electrons underlying emergent phenomena in quantum materials have perplexed scientists for decades. However, recent experimental and theoretical progress indicates that the field is poised for transformation. This progress has been driven largely by:

  • Unprecedented control in materials synthesis at the atomic level, including the creation of “artificial quantum materials,” hybrid structures with unique and tunable emergent properties,
  • Ultra-sensitive measurement tools that can probe structural, electronic and magnetic properties on the sub-atomic scale, and
  • New theoretical frameworks for understanding collective electronic properties and powerful new approaches to calculating the electronic properties of complex solids.

Our Approach

Emergent Phenomena in Quantum Systems (EPiQS) has established an integrated research program that includes materials synthesis, experiment and theory, and that crosses the boundaries among physics, chemistry and materials science. We support basic discovery-driven research rather than efforts targeting specific applications.  With five funding approaches, we focus on a relatively small group of the field’s top scientists and provides them with substantial resources, the freedom to explore uncertain research directions, and ample opportunities to exchange ideas and foster collaborations. 

  • The Moore Investigator in Quantum Materials awards, which allow a group of top experts in experimental research and materials synthesis to maximize their creativity. We enables some of the top scientists in the field of quantum materials to pursue discovery-driven research with the potential to transform our understanding of how complex quantum matter organizes itself. 
  • The Moore Fellows in Materials Synthesis awards, which help leading young materials synthesis experts establish themselves at U.S. academic institutions.
  • Support for Theory Centers at several leading universities, which strengthens theoretical research and enriches the intellectual environment at these institutions through support for postdoctoral and visiting scientists. Currently, six awarded grants in this portfolio provide about $8 million in support for five years.
  • Flexible funding, which enables us to seize timely opportunities to impact the field by supporting development of unique instrumentation and high-risk experimental efforts;
  • Community-building activities that create and sustain a vibrant research network to promote the exchange of ideas and materials.
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IMPACT STATEMENT

The $90M EPiQS Initiative aims to stimulate breakthroughs to fundamentally change our understanding of the organizing principles of complex matter. 

KEY DATA POINTS

Understanding complex quantum systems

Five funding approaches in materials synthesis, experiment and theory that cross the boundaries between physics, chemistry and materials science.
  • first award

    Jun 2013

  • grants to date

    $83,513,775

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