The theory of materials science investigates the electronic and structural properties of advanced materials, nano-structures and bio-molecules. In the study explained in this video, the researchers present a novel theoretical method to describe, design and control how molecules and materials in combination with photons may lead to new states of matter with novel emerging properties. The research aims to theoretically find and define new states of matter and potential uses for this new phenomenon, in which atoms, electrons and photons are all entangled. ANGEL RUBIO elucidates why this phenomenon is special for chemistry, for materials science and for the more general concept of finding new quasi particles. The research on new states of matter might be relevant not only for practical applications but also for opening new fundamental research in materials science. A practical application in (bio)chemistry would be to target specific cell-reactions; in materials science, one long term perspective would be to develop more energy efficient devices.
      
  
   
  
  
    
      
  
    
      DOI:    
                  https://doi.org/10.21036/LTPUB10297
               
  
   
  
  
  
            Researcher
        
      
            
      
            Angel Rubio is Director of the Max Planck Institute for the Structure and Dynamics of Matter in Hamburg, Germany, and Professor at the University of Hamburg. His field of research is theoretical solid-state physics with a focus on developing novel theoretical tools and modeling the characteristics of solid states and nano structures under the influence of electromagnetic fields.
Rubio received the Friedrich Wilhelm Bessel Research Award of the Humboldt Foundation. He is a Fellow of the American Physical Society and the American Association for the Advancement of Science (AAAS) as well as a member of the U.S. National Academy of Sciences (NAS) and the Academia Europaea.
      
  
 
      
  
   
  
  
            Institution
        
      
      
              
      
              
      
      
        
        
            The Max Planck Institute for the Structure and Dynamics of Matter (MPSD) investigates the 
make-up and properties of materials on the atomic and molecular level. Using state-of-theart laser systems, researchers force materials into new and unusual states, for example high 
temperature superconductivity, to study the underlying processes. The MPSD’s Theory 
Department complements the experimental results with advanced models and simulations 
performed on High Performance Computers. The Institute’s researchers collaborate with the 
University Hamburg, DESY and many other organisations on the Research Campus HamburgBahrenfeld, giving them access to a unique range of world-class light and radiation sources 
such as the Free-Electron Laser FLASH, the synchrotron radiation source PETRA III and the 
European XFEL. The MPSD’s research produces entirely new insights into the fundamental 
properties of existing and innovative materials as well as their potential applications.
 
      
        
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            Original publication
        
      
      
              
      
      
Kohn-Sham Approach to Quantum Electrodynamical Density Functional Theory: Exact Time-Dependent Effective Potentials in Real Space
      
        Flick Johannes, Ruggenthaler Michael, Appel Heiko and Rubio Angel
      
      
            Proceedings of the National Academy of Sciences
      
      Published in 2015
    
 
    
  
 
           
  
  
   
  
  
      
  
  
            Reading recommendations
        
      
      
              
      
      
Optimized Effective Potential for Quantum Electrodynamical Time-Dependent Density Functional Theory
      
        Flick Johannes, Appel Heiko, Rubio Angel, Pellegrini Camilla and Tokatly Ilya V.
      
      
            Physical Review Letters
      
      Published in 2015
    
 
    
  
 
              
      
      
Creating Stable Floquet-Weyl Semimetals by Laser-Driving of 3D Dirac Materials
      
        Rubio Angel, Hübener Hannes, Sentef Michael A., De Giovannini Umberto and Kemper Alexander F.
      
      
            Nature Communications
      
      Published in 2016
    
 
    
  
 
              
      
      
Quantum Plasmonics: From Jellium Models to Ab-Initio Calculations
      
        Rubio Angel, Varas Alejandro, García-González Pablo, Feist Johannes and García-Vidal F.J.
      
      
            Nanophotonics
      
      Published in 2016
    
 
    
  
 
              
      
      
Unraveling the Intrinsic Color of Chlorophyll
      
        Rubio Angel, Milne Bruce F., Toker Yoni and Nielsen Steen Brøndsted
      
      
            Angewandte Chemie International Edition
      
      Published in 2015
    
 
    
  
 
              
      
      
Insights Into Colour-Tuning of Chlorophyll Optical Response in Green Plants
      
        Rubio Angel, Milne Bruce F., Jornet-Somoza Joaquim, Alberdi-Rodriguez Joseba, Andrade Xavier, Marques Miguel A.L., Nogueira Fernando, Oliveira Micael J.T. and Stewart James J.P.
      
      
            Physical Chemistry Chemical Physics
      
      Published in 2015
    
 
    
  
 
              
      
      
Coherent Ultrafast Charge Transfer in an Organic Photovoltaic Blend
      
        others, Rubio Angel, Falke Sarah Maria, Rozzi Carlo Andrea, Brida Daniele, Maiuri Margherita, Amato Michele, Sommer Ephraim, De Sio Antonietta, Cerullo Giulio and Molinari Elisa
      
      
            Science
      
      Published in 2014
    
 
    
  
 
           
  
  
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