Maria C. Asensio is a Spanish-Argentine physical chemist, academic, researcher, and author. She is a Full Research Professor at the Materials Science Institute of Madrid (ICMM) of the Spanish National Research Council (CSIC) and Chair of the CSIC Research Associated Unit-MATINÉE created between the ICMM and the Institute of Materials Science (ICMUV) of the Valencia University. Asensio's work is focused on the characterization of advanced materials, developing spectroscopic instrumentation, and the use of artificial intelligence tools for discovering sustainable energy materials. She is best known for her contribution in chemical and electronic imaging of nano- and mesoscopic materials, using nano Angle-Resolved Photoemission Spectroscopy (Nano-ARPES) and X-ray Absorption Spectroscopy (XAS), among other conventional experimental characterization techniques. She has also worked on the experimental determination of the structure of complex materials using effective energy and angular scanning photoelectron Diffraction spectroscopic techniques. Asensio has published over 250 research articles.
Education In 1980, Asensio graduated with a degree in physical chemistry from the La Plata National University. From 1981 to 1986, she carried out her doctoral thesis work at the Institute of Theoretical and Applied Physicochemical Research (INIFTA), receiving Ph.D. degree from the National University of La Plata. She earned her postdoctoral degree from the Autonomous University of Madrid in 1987 and Warwick University in 1989.
Career After moving to Europe, Asensio was an assistant professor at the Autonomous University of Madrid (UAM) from 1988 to 1989 and worked as a Postgraduate lecturer at the European Hercules from 1992 to 1999 at LURE Synchrotron, Orsay, France. She also was a lecturer of the Postgraduate of the Condensed Matter Programme of the Sciences Faculty of the UAM and the Complutense University of Madrid, during 1992 and 1999. Asensio has been working as a senior scientist at ICMM-CSIC since 1992, with a prolonged leave of eleven years. From 2007 to 2018, she was working as a permanent scientific staff of the Synchrotron SOLEIL, in Gif-sur-Yvette, France. Asensio was elected as the International Union for Vacuum Science, Technique, and Applications (IUVSTA) Scientific Director from 2004 to 2007. She has chaired the Surface Science Division of the IUVSTA from 2019 to the present. She currently works as a Full Professor Research Staff Member at the Materials Science Institute of Madrid.
Research Asensio's research is focused on studying the chemical, structural, and electronic structure of surfaces, interfaces, and quantum materials utilizing synchrotron radiation techniques. For several decades, she has worked on the applications and development of scientific instrumentation in Large European Synchrotron Radiation Installations.
Development of synchrotron radiation scientific instrumentation Asensio has worked on the use, applications, and development of scientific instrumentation in Large European Synchrotron Radiation Installations. After the LURE's closure and the Synchrotron SOLEIL's construction as the new national source of SR, Asensio designed and built an SR station to perform the Nano-ARPES technique. In 2011, the first short scientific article appeared, showing a few incipient advances in the design of the "Nanometre multi-axis manipulator with interferometer control." that later led to the success of the nanoARPES instrument at the ANTARES beamline of the SOLEIL Synchrotron. The results obtained with the instrumentation developed at the ANTARES beamline demonstrated the Project's feasibility, resulting in the proof of concept of the nanoARPES Project. This novel technique is a k-nanoscope technique that allows a direct and precise determination of the electronic structure recording the "with binding energy (BE) vs. k wave vector" plots and Fermi surface imaging of heterogeneous complex materials with a lateral resolution better than 100nm. Asensio developed a new method entitled the ANTARES beamline of the SOLEIL synchrotron. This method is a multi-axis manipulator with interferometer control and provides an X-ray nanoprobe. She also introduced several ways to characterize the chemical and electronic heterogeneities from the millimetre to the nanometre scale, as well as to address several mesoscopic scientific problems. She used complementary synchrotron and theoretical approaches to address the electrical characteristics of the coordination complex nickel (II) bis-n-propyl xanthate, and to understand the reactivity of coordination chemistry. Later, she conducted ARPES studies on a heterostructure made of bilayer graphene (BLG) and hexagonal boron nitride (hBN), which is back gated with an underlying graphite flake, with submicron spatial resolution among other contributions.
Nanoscience and Nano-ARPES Asensio's research includes the electronic and chemical characterization of novel low-dimensional quantum materials like Graphene, hBN, transition metal dichalcogenide (TMD), transition metal trichalcogenide (TMT), Xenes, and in particular, silicene and the Nano-ARPES approach, and their atomically controlled homo- and hetero-structures, using conventional and synchrotron radiation-based techniques. Out of all the articles she had, her research on silicene has received the most citations, totalling 3613. She has been focusing on the operation of the Nano-ARPES user facility constructed at the SOLEIL synchrotron over the past ten years. She worked on manybody effects detected by photoemission on low-dimensional materials compiling model photoemission simulation and experimental Nano-ARPES results to unravel collective excitations involving polarons, plasmons, phonons and other low-energy interactions. She analyzed the relationship between the element's wave-function nature and the excited-state, self-energy effects.
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