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Environmental and Material Electrochemistry Laboratory

  1. Undergraduate students

    • Karen Nohemi García Chávez

    • Miriam Lisbet Carbajal Pedraza

    • Andrea Montserrat Gutiérrez Flores

    • Vanessa Anahid León Ortega

    • Héctor Donnet Hernández Salinas

    • Ricardo Moisés Carrasco Juárez

  2. Postdoctorate

    • ​​Dr. Raciel Jaimes López

  3. Head of group

    • Dra. Claudia Guerrero Barajas

    • Dr. Juan Alberto Alcántara Cárdenas

    • Mtro. Samuel Pérez Rodríguez

    • Dr. Luis Alberto Estudillo Wong

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01

Synthesis of new materials

Synthesis of non-precious metals, oxide, and oxide-carbon composite applied to photochemistry and photo-electrochemistry systems.

02

Microbiological systems

Dra. Guerrero-Barajas focuses on conducting microcosm experiments to investigate the biodegradation and biotransformation potential of organic compounds and metals using methanogenic and sulfate-reducing consortia, as well as pure strains. Another applications is the Upflow Anaerobic Sludge Blanket Digestion (UASB) reactors applied in wastewater treatment.

Microcosm
UASB reactor

03

Electrochemistry technologies

The working group focuses in design and develop technologies in the environmental and energy conversion in the field of electrochemistry, which are:

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  1. Biodegradation and degradation of organic and inorganic pollutants in aerobic and anaerobic conditions.

  2. Soil bio-remediation

  3. Bio-electrochemistry  and electrochemistry systems  for removing organic material, emerging pollutants, heavy metals and energy sources.

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Electrochemical reactors
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04

Instrumental application

This project is related to develop instrumental applications in chemistry and electrochemistry reactors, based on Arduino system, in collaboration with students.

05

Simulations in Materials and electrochemistry Science

Theoretical-computational investigation of catalytic processes involved in advanced oxidation processes for the removal of organic pollutants from water. In this study, we utilize the recently developed Joint Density Functional Theory (jDFT) to elucidate the electronic structure of periodic systems. This is done in the presence of a constant chemical potential and solvent with implicit ions, allowing for the modeling of electrochemical reactions under conditions more akin to those of the electrochemical double layer than achievable with DFT in a vacuum. This project is carried out by Dr. Jaimez-López (Postdoc)

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