Material science & energy



The UAB Campus hosts several research centres working on the innovation of new materials and power generation processes.


  • Biological processes for the removal of H2S gas content as biogas or natural gas.
  • Bioelectrochemical hydrogen production.
  • Reducing net CO2 emissions.
  • Bioreactors for biological collection of CO2.
  • Biological collection of CO2.

  • Water and waste gas treatment technologies.
  • Manufacture of power devices.
  • Systems to improve efficiency and reduce energy consumption, with particular emphasis on applications, transportation, aerospace, renewable energy and automotive power distribution.
  • Radiation detection in high-energy physics and medical imaging.
  • Gas detection.
  • Materials to generate photovoltaic energy.
  • Materials for storing and converting energy.
  • Materials for the generation, storage and use of energy.
  • Plastic-based materials for flexible solar panels.
  • New sustainable methods for obtaining and storing energy.
  • Biological transformation of natural products into energy products (Energy recovery from different waste substances created in industrial processes to generate value-added products such as biofuels).

  • Improve the wireless transmission of electrical energy.
  • Superconductors for application to levitating trains.
  • Development and construction of superconducting wires.
  • Microelectronic systems for remote site water / gas / electricity.
  • Advanced systems for diagnosis of the state of the current electricity and gas infrastructure.
  • Algorithms for optimal management of electric vehicle top-up.
  • Advanced systems for diagnosis of the state of existing infrastructures.
  • Output devices.
  • Control systems environments and people.

  • Biomaterials and materials for drug delivery and diagnostics.
  • Materials for energy and the environment.
  • Design of materials for communication sciences and electronics.
  • Optical materials.
  • High-performance micro and nano devices for biological and biomedical applications.
  • BioInterfaces and application of nanomaterials to public health and environmental health.
  • Portable multiparameter optical system for counting and / or analysis of organic (microorganisms) and inorganic suprananometric particles.
  • Material for manufacturing heavy metal sensors that are small, low cost, high sensitivity, and respect the environment.

  • Technology for the fabrication of functional AFM probes.
  • Methods based on emerging nanolithographies to manufacture nanometre scale structures and devices of interest for integrated micro/nano systems.