Anion-exchange membrane–photoelectrochemical water splitting using porous hematite photoanodes
DOB Apriandanu, RM Surya, K Beppu… - ACS Applied Energy …, 2023 - ACS Publications
ACS Applied Energy Materials, 2023•ACS Publications
The requirement for liquid electrolytes to maintain their ionic conductivity hinders the
practical implementation of photoelectrochemical (PEC) systems. Here, a membrane
electrode assembly was fabricated by incorporating porous α-Fe2O3 (hematite)-based
photoanodes with an anion-exchange membrane (AEM). AEM–PEC water splitting was
demonstrated in pure water without supporting electrolytes over porous hematite
photoanodes under visible-light irradiation. This PEC system was operational even under …
practical implementation of photoelectrochemical (PEC) systems. Here, a membrane
electrode assembly was fabricated by incorporating porous α-Fe2O3 (hematite)-based
photoanodes with an anion-exchange membrane (AEM). AEM–PEC water splitting was
demonstrated in pure water without supporting electrolytes over porous hematite
photoanodes under visible-light irradiation. This PEC system was operational even under …
The requirement for liquid electrolytes to maintain their ionic conductivity hinders the practical implementation of photoelectrochemical (PEC) systems. Here, a membrane electrode assembly was fabricated by incorporating porous α-Fe2O3 (hematite)-based photoanodes with an anion-exchange membrane (AEM). AEM–PEC water splitting was demonstrated in pure water without supporting electrolytes over porous hematite photoanodes under visible-light irradiation. This PEC system was operational even under low conductivity and near-neutral conditions (∼1 mS/m and pH ∼ 9). Action spectral analysis confirmed a visible-light response extending up to 600 nm, surpassing that of previously reported photoelectrodes with solid-electrolyte membranes.
ACS Publications
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