HERNANDEZ FONTES, CARLOS

HERNANDEZ FONTES, CARLOS

QUIMICA · Nivel 1

H2 production CO2 capture Sorption-enhanced reforming CO conversion CO oxidation NOx conversion Kinetics Biomass conversion Surface chemistry Solid state chemistry Methane reforming

Desde 2020 es Ph.D. in Science student en Universidad Nacional Autónoma de México

Perfil académico

Nombre CARLOS HERNANDEZ FONTES
Área BIOLOGÍA Y QUÍMICA
Campo QUIMICA
Disciplina QUÍMICA GENERAL
Especialidad OTRAS
CVU 838889
Institución
Dependencia COORDINACION DE LA INVESTIGACION CIENTIFICA
Entidad CIUDAD DE MEXICO
Nivel 1
Vigencia Inicio: 01/01/2026
Fin: 31/12/2030

Publicaciones ORCID

2026
Dual-reactor system implementation for Li5FeO4-assisted sorption enhanced steam reforming for hydrogen production, during biomass pyrolysis Renewable Energy
2024
Experimental and Computational Elucidation of the Li2MnO3-Mediated Mechanism for CO Oxidation-Capture Chemistry of Materials
Unraveling the Textile Pollution Problem with Li5FeO4 as a Bifunctional Material for Hydrogen Production and COx Capture: From Glucose to Cotton Pyrolysis ACS Sustainable Chemistry & Engineering
Enhanced H2 production through biomass pyrolysis by applying alkaline ceramic lithium cuprate (Li2CuO2) as a bifunctional material Sustainable Energy & Fuels
Enhanced hydrogen production via assisted biomass gasification using lithium manganate as a bifunctional material Journal of Materials Chemistry A
2023
State of the art and perspectives of the CO2 chemisorption in ceramics with its simultaneous or subsequent chemical transformation Carbon Capture Science & Technology
Scrutinizing the CO Chemical Capture Path in Li2MnO3 Samples with Different Microstructural Properties The Journal of Physical Chemistry C
Sodium/lithium 3d transition metalates for chemisorption of gaseous pollutants: a review Materials Today Chemistry
Insight into CO selective chemisorption from syngas mixtures through Li2MnO3; a new H2 enrichment material Reaction Chemistry & Engineering
Probing room-temperature reactivity of H2S, SO2, and NO on the Li2MnO3 crystal surface by experimental and first-principles studies New Journal of Chemistry