CORRELACIONES CUANTICAS E INTERFERENCIA DE FOTONES INTERACTUANTES EN ESTRUCTURAS MATERIA-LUZ BIDIMENSIONALES
PID2020-113415RB-C22
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Nombre agencia financiadora Agencia Estatal de Investigación
Acrónimo agencia financiadora AEI
Programa Programa Estatal de I+D+i Orientada a los Retos de la Sociedad
Subprograma Programa Estatal de I+D+i Orientada a los Retos de la Sociedad
Convocatoria Proyectos I+D
Año convocatoria 2020
Unidad de gestión Plan Estatal de Investigación Científica y Técnica y de Innovación 2017-2020
Centro beneficiario UNIVERSIDAD AUTONOMA DE MADRID
Identificador persistente http://dx.doi.org/10.13039/501100011033
Publicaciones
Found(s) 1 result(s)
Found(s) 1 page(s)
Found(s) 1 page(s)
Multiple polaron quasiparticles with dipolar fermions in a bilayer geometry (dataset)
e-cienciaDatos, Repositorio de Datos del Consorcio Madroño
- Tiene, Antonio
- Tamargo Bracho, Andrés
- Parish, Meera M.
- Levinsen, Jesper
- Marchetti, Francesca Maria
<p>This dataset contains the folders including gnuplot scripts and datafile to reproduce all the pictures in the published paper.</p>
<ul>
<li>2DEnLight</li>
<p align="justify">The ‘quantum age’ of the 21st century has proven to have a tremendous power to revolutionize not only our science but also many sectors of our economy, industry and everyday-life. Its full potential to shape the future of our society and to take us into a new era far beyond the capabilities of today’s familiar digital landscape is yet to be realized. Among many existing candidates for developing and testing fundamental as well as technically innovative ideas in the quantum realm, the quantum aspects of light and light-matter interactions are one of the most fascinating and rapidly emerging research fields. In particular, the non-classical light sources emitting photons with controllable quantum correlations are at the heart of most applications in quantum communication and information processing. The 2DEnLight project focusses on the controllable production of light at its fundamental single-photon limit as well as manipulation of its intrinsic properties. Our proposal includes the possibility of engineering and manipulating coupled emitter-light systems capable of generating non-classical photon streams and demonstrating tunable quantum correlations both at the few- and many-body level.</p>
<li> NanoQuCo</li>
<p align="justify">With NanoQuCo we will design quantum computers based on quantum nanophotonics to overcome the size and speed limitations of current
limitations of current platforms, and realize new quantum computing algorithms with near-term applications. </p>
</ul>
<ul>
<li>2DEnLight</li>
<p align="justify">The ‘quantum age’ of the 21st century has proven to have a tremendous power to revolutionize not only our science but also many sectors of our economy, industry and everyday-life. Its full potential to shape the future of our society and to take us into a new era far beyond the capabilities of today’s familiar digital landscape is yet to be realized. Among many existing candidates for developing and testing fundamental as well as technically innovative ideas in the quantum realm, the quantum aspects of light and light-matter interactions are one of the most fascinating and rapidly emerging research fields. In particular, the non-classical light sources emitting photons with controllable quantum correlations are at the heart of most applications in quantum communication and information processing. The 2DEnLight project focusses on the controllable production of light at its fundamental single-photon limit as well as manipulation of its intrinsic properties. Our proposal includes the possibility of engineering and manipulating coupled emitter-light systems capable of generating non-classical photon streams and demonstrating tunable quantum correlations both at the few- and many-body level.</p>
<li> NanoQuCo</li>
<p align="justify">With NanoQuCo we will design quantum computers based on quantum nanophotonics to overcome the size and speed limitations of current
limitations of current platforms, and realize new quantum computing algorithms with near-term applications. </p>
</ul>