Miguel A. Gomez Gonzalez
About Miguel A. Gomez Gonzalez
Miguel A. Gomez Gonzalez is a Beamline Scientist at Diamond Light Source, specializing in synchrotron-based X-ray techniques for molecular-level element speciation. He has a background in Chemistry and Geochemistry, holding a PhD from Universidad de Zaragoza and previous research experience at institutions such as Imperial College London and Eawag.
Current Role at Diamond Light Source
Miguel A. Gomez Gonzalez has been employed as a Beamline Scientist at Diamond Light Source since 2019. In this role, he specializes in synchrotron-based X-ray techniques, focusing on molecular-level element speciation. His work contributes to the understanding of materials at a fundamental level, particularly in relation to environmental applications.
Previous Experience at Imperial College London
Prior to his current position, Miguel worked at Imperial College London as a Postdoctoral Researcher from 2016 to 2019. During this three-year tenure, he engaged in various research projects that enhanced his expertise in chemistry and geochemistry, further developing his skills in scientific investigation.
Research Experience at UNAM and Eawag
Miguel A. Gomez Gonzalez completed a Short-Term Research Stay at UNAM in 2015, which lasted for two months in Ciudad de México. Additionally, he undertook another Short-Term Research Stay at Eawag in 2014, spending four months in Duebendorf, Switzerland. These experiences contributed to his international research exposure and collaboration.
Education and Academic Background
Miguel studied at Universidad de Zaragoza, where he earned a Licentiate degree in Chemistry from 2003 to 2008. He continued his education at the same institution, achieving a Doctor of Philosophy (PhD) in Chemistry/Geochemistry from 2010 to 2016. His academic background provides a solid foundation for his research and current scientific endeavors.
Specialization in Nanomaterials Characterization
Miguel specializes in the multimodal characterization of engineered nanomaterials in the environment. He employs advanced techniques such as asymmetrical flow field-flow fractionation and single-particle inductively coupled plasma mass spectrometry for colloid size characterization, which are essential for understanding the behavior and impact of nanomaterials.