Matthew T Mayer
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Explore the profile of Matthew T Mayer including associated specialties, affiliations and a list of published articles.
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Articles
26
Citations
508
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Recent Articles
1.
Kong H, Gupta S, Perez-Torres A, Hohn C, Bogdanoff P, Mayer M, et al.
Chem Sci
. 2024 Jul;
15(27):10425-10435.
PMID: 38994405
Glycerol, a primary by-product of biodiesel production, can be oxidized into various value-added chemicals, significantly enhancing the techno-economic value of photoelectrochemical (PEC) cells. Several studies have explored various photoelectrode materials...
2.
El-Nagar G, Haun F, Gupta S, Stojkovikj S, Mayer M
Nat Commun
. 2023 Apr;
14(1):2062.
PMID: 37045816
Membrane electrode assemblies enable CO electrolysis at industrially relevant rates, yet their operational stability is often limited by formation of solid precipitates in the cathode pores, triggered by cation crossover...
3.
Pan X, Kochovski Z, Wang Y, Sarhan R, Hark E, Gupta S, et al.
J Colloid Interface Sci
. 2023 Jan;
637:408-420.
PMID: 36716665
Herein, we report a straightforward, scalable synthetic route towards poly(ionic liquid) (PIL) homopolymer nanovesicles (NVs) with a tunable particle size of 50 to 120 nm and a shell thickness of...
4.
El-Nagar G, Yang F, Stojkovikj S, Mebs S, Gupta S, Ahmet I, et al.
ACS Catal
. 2023 Jan;
12(24):15576-15589.
PMID: 36590316
To address the challenge of selectivity toward single products in Cu-catalyzed electrochemical CO reduction, one strategy is to incorporate a second metal with the goal of tuning catalytic activity via...
5.
Son M, Pan L, Mayer M, Hagfeldt A, Gratzel M, Luo J
ACS Appl Mater Interfaces
. 2021 Nov;
13(46):55080-55091.
PMID: 34761678
Cuprous oxide (CuO) is a promising photocathode material for photoelectrochemical (PEC) water splitting. Recently, the PEC performances of CuO-based devices have been considerably improved by introducing nanostructures, semiconductor overlayers, and...
6.
Stojkovikj S, El-Nagar G, Firschke F, Pardo Perez L, Choubrac L, Najdoski M, et al.
ACS Appl Mater Interfaces
. 2021 Aug;
13(32):38161-38169.
PMID: 34370955
To sustainably exist within planetary boundaries, we must greatly curtail our extraction of fuels and materials from the Earth. This requires new technologies based on reuse and repurposing of material...
7.
Abouserie A, El-Nagar G, Heyne B, Gunter C, Schilde U, Mayer M, et al.
ACS Appl Mater Interfaces
. 2020 Nov;
12(47):52560-52570.
PMID: 33180455
Covellite-phase CuS and carrollite-phase CuCoS nano- and microstructures were synthesized from tetrachloridometallate-based ionic liquid precursors using a novel, facile, and highly controllable hot-injection synthesis strategy. The synthesis parameters including reaction...
8.
Mesa C, Francas L, Yang K, Garrido-Barros P, Pastor E, Ma Y, et al.
Nat Chem
. 2019 Oct;
12(1):82-89.
PMID: 31636394
Water oxidation is the key kinetic bottleneck of photoelectrochemical devices for fuel synthesis. Despite advances in the identification of intermediates, elucidating the catalytic mechanism of this multi-redox reaction on metal-oxide...
9.
Rojas H, Bellani S, Sarduy E, Fumagalli F, Mayer M, Schreier M, et al.
ACS Omega
. 2019 Aug;
2(7):3424-3431.
PMID: 31457664
Nowadays, the efficient, stable, and scalable conversion of solar energy into chemical fuels represents a great scientific, economic, and ethical challenge. Amongst the available candidate technologies, photoelectrochemical water-splitting potentially has...
10.
Mesa C, Kafizas A, Francas L, Pendlebury S, Pastor E, Ma Y, et al.
J Am Chem Soc
. 2017 Jul;
139(33):11537-11543.
PMID: 28735533
The kinetics of photoelectrochemical (PEC) oxidation of methanol, as a model organic substrate, on α-FeO photoanodes are studied using photoinduced absorption spectroscopy and transient photocurrent measurements. Methanol is oxidized on...