Luminescent Materials - Barandiarán, Zoila

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Biographie:
Zoila Barandiar?n is Professor of Chemistry at Universidad Aut?noma de Madrid. After a PhD from Universidad de Oviedo, Spain, she completed her background in quantum chemistry under the postdoctoral supervision of Professor Sigeru Huzinaga in Canada. She has held an appointment as Visiting Professor at the University of Canterbury, Christchurch, New Zealand, and as a visiting researcher during one-year periods at the Lawrence Berkeley National Laboratory and Universiteit Utrecht, The Netherlands. She teaches courses on general chemistry, physical chemistry and quantum chemistry. Jonas Joos is a postdoctoral researcher at Universidad Aut?noma de Madrid and Ghent University. He obtained his master's degree and PhD from Ghent University in Belgium. His research focuses on probing the atomic-scale origins of novel optical and electronic properties using a combined experimental-theoretical methodology. This includes the use of synchrotron x-ray spectroscopy combined with theoretical methods that range from empirical models to crystal-field and density functional theory and ab initio multiconfigurational calculations. Luis Seijo is Professor of Chemistry at Universidad Aut?noma de Madrid. He earned his PhD from Universidad de Oviedo, Spain, in 1983, subsequently carrying out a postdoctoral visit at The University of Alberta, Canada, between 1984 and 1986. He has held appointments as visiting professor at the Institute of Molecular Science, Okazaki, Japan, and the University of Tokyo, and as visiting researcher during one-year periods at the University of California in Berkeley and Universiteit Utrecht, The Netherlands. Barandiar?n and Seijo have developed a long standing research collaboration on ab initio calculations of luminescent materials. By developing embedding techniques, they pioneered the extension of quantum chemistry methods from molecules to materials, and worked on the development of methods that paved the way to complex excited states of lanthanide ions. The focus of their latest research is enabling these methods to tackle luminescent problems of increasing complexity and providing deeper physical insight into basic problems of luminescence.