1. Fayer, Michael D (b. 12.09.1947), David Mulvane Ehrsam  and Edward Curtis Franklin Professor of Chemistry, Department of Chemistry,  Stanford University, Stanford, CA 94305-5080, USA.
  Professor  Fayer opened a new era of spectroscopic research on the dynamics of complex  molecular materials by his ground-breaking ultrafast nonlinear experiments. He  expanded the field from visible to infrared multidimensional techniques,  pursuing fundamentally important problems. His work in the visible and IR  spread widely, stimulating and extending the fields.
  2. John, Sajeev Oommen (b. 04.04.1957), University Professor, Department of Physics, University of Toronto,  Toronto, Ontario M5S1A7, Canada.
  Professor Sajeev John invented the concept of  classical wave localization and photon localization. His “photon-atom bound  state” has allowed for the emergence of a new paradigm in quantum  electrodynamics. Professor John’s invention and development of light trapping  crystals has led to life-saving laser surgeries using photonic band gap fibers.  His numerical demonstration of flexible thin-film silicon, photonic crystal  solar cells has shown unprecedented power conversion efficiency, beyond 30% and  sparked intense innovation in the photovoltaics community. This is  revolutionary in our battle against climate change. 
  3. Knust, Elisabeth (b. 09.01.1951), Professor Dr. Rer. Nat, Max-Planck-Institute of Molecular Cell Biology  and Genetics, Pfotenhauerstr, 108, 01307 Dresden, Germany. 
  Professor Knust's work focuses on questions  of cell polarity and how this is established during development and maintained  during homeostasis to guarantee the cell’s functions. She studied mainly three  cell types in Drosophila: epithelia cells, neuronal stem cells, and  photoreceptor cells with the aim to unravel the mechanisms by which  multiprotein complexes become asymmetrically localized, to determine the role  of their individual components, and to understand how these membrane–associated  protein complexes control polarized cell function. She has made seminal  contributions to elucidate basic principles of the function of two important,  evolutionarily conserved protein complexes, the Crumbs- and the Par- complex.  Her work is also directly relevant for medicine, shown by the fact that  mutations in some of the genes involved in cell polarity and splicing lead to  blindness in flies and zebrafish.
  4. McNutt, Marcia Kemper (b. 19.02.1952), President, National Academy of Sciences, 505 5th St. NW, NAS  215, Washington, DC, 20001, USA .
  Professor  McNutt made  fundamental contributions to what are now viewed as accepted theories of how  plates deform under loading on geologic time scales. Later, she played a  leadership role confronting the challenges of estimating the leak rate of the Deepwater Horizon oil  spill and helping to contain the blowout. She took the lead in publishing the  new methods that she and her collaborators developed that became essential  tools in the growing field of disaster response science. She also launched the  Strategic Sciences Group, which was codified into the US government’s disaster  response, and reactivated for Superstorm Sandy and other emergencies. 
  5. Withers, Philip John (b. 11.05.1963), Regius Professor of Materials, University  of Manchester, Royce Hub Building, Manchester, M139PL, United Kingdom. 
  Professor Withers’ has pioneered the use of  neutron, synchrotron X-ray diffraction and correlative tomography linking X-ray  and electron imaging techniques, to follow the behaviour of engineering and  natural materials in real time and in three- dimensions across different length  scales, often as they operate under demanding conditions. . He is one of the  leading experts on the measurement of, and the effect of, residual stresses on  the performance of engineering materials. His work on residual stress mapping  across different length scales, has supported the safe introduction of solid  state welding processes by Rolls-Royce and others. His work has shed new light  on the mechanisms of ductile failure, fracture, fatigue, thermochemical cycling  and the corrosion/degradation of metals and alloys, composites and coatings.