Water electrolysis

We develop highly active, stable, and low-cost electro- and photoelectrochemical (EC & PEC) hydrogen evolution reaction (HER) catalysts based on nanostructured transition-metal sulfides/oxides/phosphides, such as MoS2, MoP, MoO2, and Co2O3. We primarily develop efficient transition-metal-based oxygen evolution reaction (OER) catalysts via hydrothermal and electrochemical synthesis for energy conversion applications. Our main focus is the development of efficient electrocatalysts for AEMWE.

We develop membrane–electrode assemblies (MEAs) with engineered catalyst layers and membrane–electrode interfaces to improve efficiency and durability under practical operating conditions. By optimizing interfacial contact, ion transport pathways, and electrode architectures, these MEAs enable stable, high-performance operation and provide a scalable platform for advanced electrochemical energy conversion systems.

We develop highly active, stable, and low-cost electro- and photoelectrochemical (EC & PEC) hydrogen evolution reaction (HER) catalysts based on nanostructured transition-metal sulfides/oxides/phosphides, such as MoS2, MoP, MoO2, and Co2O3. We primarily develop efficient transition-metal-based oxygen evolution reaction (OER) catalysts via hydrothermal and electrochemical synthesis for energy conversion applications. Our main focus is the development of efficient electrocatalysts for AEMWE.

We develop highly active, stable, and low-cost electro- and photoelectrochemical (EC & PEC) hydrogen evolution reaction (HER) catalysts based on nanostructured transition-metal sulfides/oxides/phosphides, such as MoS2, MoP, MoO2, and Co2O3. We primarily develop efficient transition-metal-based oxygen evolution reaction (OER) catalysts via hydrothermal and electrochemical synthesis for energy conversion applications. Our main focus is the development of efficient electrocatalysts for AEMWE.

We develop highly active, stable, and low-cost electro- and photoelectrochemical (EC & PEC) hydrogen evolution reaction (HER) catalysts based on nanostructured transition-metal sulfides/oxides/phosphides, such as MoS2, MoP, MoO2, and Co2O3. We primarily develop efficient transition-metal-based oxygen evolution reaction (OER) catalysts via hydrothermal and electrochemical synthesis for energy conversion applications. Our main focus is the development of efficient electrocatalysts for AEMWE.

We develop highly active, stable, and low-cost electro- and photoelectrochemical (EC & PEC) hydrogen evolution reaction (HER) catalysts based on nanostructured transition-metal sulfides/oxides/phosphides, such as MoS2, MoP, MoO2, and Co2O3. We primarily develop efficient transition-metal-based oxygen evolution reaction (OER) catalysts via hydrothermal and electrochemical synthesis for energy conversion applications. Our main focus is the development of efficient electrocatalysts for AEMWE.