María Dolores Merchán Moreno

María Dolores Merchán Moreno is an Associate Professor in the Physical Chemistry Department at the University of Salamanca, a position she has held since 1999. Her academic career spans over two decades, focusing on colloid and interface chemistry.

Her educational background includes a PhD in Chemistry from the University of Salamanca, where her doctoral thesis on Thermoprogrammed desorption in solution led to two patents. She furthered her expertise through postdoctoral research at the Institute of Catalysis and Petrochemistry (CSIC) for one year and at the University of New Hampshire's Chemical Engineering department for six months.

Dr. Merchán's research centers on the stability, structure, and properties of 2D and 3D self-assemblies involving surfactants, polymers, and nanoparticles. Her work bridges fundamental interfacial science with applications in nanomaterials, including carbon-based nanoparticles for antibacterial uses, graphene oxide for CO2 capture, and quantum dot films for photoluminescence studies.

Analysis of her recent publications reveals a strong focus on advanced nanomaterials characterization and application. Key trends include the development of nanoparticle-based antibacterial agents, optimization of graphene oxide hybrids for environmental remediation, and the use of Langmuir-Blodgett techniques for precise nanofilm fabrication.

Scientific Awards: No major scientific awards, prizes, or fellowships are documented in the provided information.

She has secured research funding through multiple projects from Spain's Ministry of Education and Science and Ministry of Science and Innovation, supporting her work in colloid and interface chemistry. Collaborating extensively with researchers like María Mercedes Velázquez and David López-Díaz, she contributes to a dynamic research group at the University of Salamanca.

Her laboratory work involves interfacial characterization techniques and nanomaterials synthesis, with particular emphasis on air-water interface studies using Langmuir troughs and advanced spectroscopic methods.