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Technische Universität München

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The Institute for Advanced Study (IAS)

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The Annual Report

Read the IAS Annual Report 2011 online
Read the IAS Annual
Report 2011 online

Technische Universität München
Institute for Advanced Study

Lichtenbergstraße 2 a
85748 Garching

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Current Fellows

Vladimir García Morales

Vladimir García Morales

Spain  Spain
2010
Fellowship
Carl von Linde Junior Fellow
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Short CV

Vladimir García Morales was born in 1978 in Valencia (Spain). He studied Physics at the University of Valencia where he received his M. Sc. grade in 2001. There, he was also awarded his doctoral degree in 2005 with a dissertation on Nanothermodynamics and ion transport properties of interfacial nanostructures (thesis advisors Prof. J. A. Manzanares and Prof. J. Pellicer). During these years he collaborated with chemists at the universities of Porto and Helsinki, and worked as a teaching assistant at the University of Valencia (“Statistical Physics” and “Fluid Mechanics”). After obtaining the ph.d. he was awarded a DAAD scholarship with which he initiated the collaboration with Prof. Krischer’s group at the physics department of the Technical University of Munich. Later he joined this group as a postdoctoral researcher and teaching assistant where he worked on the establishment of general models of the dynamics of oscillatory electrochemical systems as well as of the stochastic dynamics of these systems on nanoelectrodes.

Awards

2007 Prize of Extraordinary Achievements during the Doctorate (Awarded by the University of Valencia to the best Ph. D. theses in Physics)

2001 Prize of Extraordinary Achievements during the Graduation in Physics (Awarded by the University of Valencia to the best M.Sc. grades in Physics)

Selected Publications

V. Garcia-Morales and K. Krischer, “Fluctuation Enhanced Electrochemical Reaction Rates at the Nanoscale”, Proc. Natl. Acad. Sci. USA 107, 4528 (2010)

I. Miethe, V. Garcia-Morales and K. Krischer, “Irregular Subharmonic Cluster Patterns in an Autonomous Photoelectrochemical Oscillator”, Phys. Rev. Lett. 102 194101 (2009)

V. Garcia-Morales and K. Krischer, “Nonlocal Complex Ginzburg-Landau Equation for Electrochemical Systems”, Phys. Rev. Lett. 100, 054101 (2008)

V. Garcia-Morales and K. Krischer, “Normal form approach to spatiotemporal pattern formation in globally coupled electrochemical systems” Phys. Rev. E 78 057201 (2008)

V. Garcia-Morales, R. W. Hölzel and K. Krischer, “Coherent structures emerging from turbulence in the nonlocal complex Ginzburg-Landau equation” Phys. Rev. E 78 026215 (2008)

V. García-Morales, J. Pellicer and J. A. Manzanares, “Thermodynamics based on the principle of least abbreviated action: entropy production in a network of coupled oscillators” Ann. Phys. (NY) 323, 1844 (2008).

V. Garcia-Morales and S. Mafe, “Monolayer-protected metallic nanoparticles: limitations of the concentric-sphere capacitor model” J. Phys. Chem. C 111, 7242 (2007)

V. García-Morales and J. Pellicer, “Microcanonical foundation of nonextensivity and generalized thermostatistics based on the fractality of the phase space” Physica A 361, 161 (2006)

M. Chirea, V. Garcia-Morales, R. Gulaboski, C. M. Pereira, J. A. Manzanares and F. Silva, “Electrochemical characterization of polyelectrolyte/gold nanoparticles multilayers self-assembled on gold electrodes”, J. Phys. Chem. B 109 21808 (2005)

V. Garcia-Morales, J. Cervera and J. A. Manzanares, “Nanothermodynamics” in K. Sattler, ed. Handbook of Nanoscience, vol. 1, Fundamentals (Taylor & Francis, New York, 2010, in press).

Research Interests

V. García-Morales’ research concentrates in the development of a theory of Nonequilibrium Statistical Mechanics which should hierarchically encompass all physical scales ranging from the microscopic mechanical description to the macroscopic (thermodynamic) one, accounting for effects that come from self-organization and cooperativity at the nanoscale and on the hydrodynamic level. From the lowest level of description (provided by the Hamilton-Jacobi theory of classical mechanics) rigorous criteria will be given for the establishment of the most appropriate coarse-grained variables and the role of the interplay between different scales will also be investigated. Electrochemical systems offer an excellent arena to experimentally validate this theory: They exhibit a wide variety of dynamical behavior, whose deterministic dynamics can be understood through theories without free adjustable parameters, and there is the possibility from an experimental point of view to address different scales, since experiments can be carried both on nano- and macroelectrodes.
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