Diego Mateo

Dr. Diego Mateo

KAUST Catalysis Center, King Abdullah University of Science and Technology, Saudi Arabia
orcid

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 December 2020 in Chemical Society Reviews
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Journal Article
Open access
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DMDiego Mateo
Diego Mateo
JOJose Luis Cerrillo Olmo
Jose Luis Cerrillo Olmo
SDSara Durini
Sara Durini
JGJorge Gascon
Jorge Gascon
Photo-thermal catalysis has recently emerged as an alternative route to drive chemical reactions using light as an energy source.

15 November 2013 in Journal of Applied Toxicology
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Journal Article
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AAAlicia Avalos
Alicia Avalos
AHAna Isabel Haza
Ana Isabel Haza
DMDiego Mateo
Diego Mateo
PMPaloma Morales
Paloma Morales

1 August 2019 in Joule
Verified
Journal Article
Closed access
DMDiego Mateo
Diego Mateo
JAJosep Albero
Josep Albero
Hermenegildo GarcíaHermenegildo García
Hermenegildo García

1 May 2018 in Applied Catalysis B: Environment and Energy
Verified
Journal Article
Closed access
DMDiego Mateo
Diego Mateo
JAJosep Albero
Josep Albero
Hermenegildo GarcíaHermenegildo García
Hermenegildo García

5 March 2019 in Molecules
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Journal Article
Open access
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Josep AlberoJosep Albero
Josep Albero
DMDiego Mateo
Diego Mateo
Hermenegildo GarcíaHermenegildo García
Hermenegildo García
Photocatalysis has been proposed as one of the most promising approaches for solar fuel production. Among the photocatalysts studied for water splitting, graphene and related materials have recently emerged as attractive candidates due to their striking properties and sustainable production when obtained from biomass wastes. In most of the cases reported so far, graphene has been typically used as additive to enhance its photocatalytic activity of semiconductor materials as consequence of the improved charge separation and visible light harvesting. However, graphene-based materials have demonstrated also intrinsic photocatalytic activity towards solar fuels production, and more specifically for water splitting. The photocatalytic activity of graphene derives from defects generated during synthesis or their introduction through post-synthetic treatments. In this short review, we aim to summarize the most representative examples of graphene based photocatalysts and the different approaches carried out in order to improve the photocatalytic activity towards water splitting. It will be presented that the introduction of defects in the graphenic lattice as well as the incorporation of small amounts of metal or metal oxide nanoparticles on the graphene surface improve the photocatalytic activity of graphene. What is more, a simple one-step preparation method has demonstrated to provide crystal orientation to the nanoparticles strongly grafted on graphene resulting in remarkable photocatalytic properties. These two features, crystal orientation and strong grafting, have been identified as a general methodology to further enhance the photocatalytic activity in graphenebased materials for water splitting. Finally, future prospects in this filed will be also commented.

13 September 2017 in Energy & Environmental Science
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Journal Article
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DMDiego Mateo
Diego Mateo
Josep AlberoJosep Albero
Josep Albero
Hermenegildo GarcíaHermenegildo García
Hermenegildo García
Photoassisted CO2 methanation can be carried out efficiently at 250 °C using Cu2O nanoparticles supported on few layer graphene (Cu2O/G) as a photocatalyst.