My research focuses on the design, synthesis, and structural engineering of functional inorganic materials for environmental remediation and sustainable energy applications. I investigate semiconductor photocatalysts, metal oxide nanomaterials, and zeolite-based materials, with particular emphasis on structure–property relationships, photocatalytic and photo-Fenton reactions, adsorption processes, and iron redox cycling for sustainable hydrogen production.
My research focuses on developing ZnO-based photocatalysts through microwave-assisted synthesis, transition-metal doping, and the preparation of waste-derived hydroxyapatite composites. I investigate how material structure, optical properties, and surface characteristics influence photocatalytic performance for the treatment of water contaminated with organic pollutants.
My research focuses on materials chemistry and heterogeneous photocatalysis, particularly the design and synthesis of semiconductor composites based on graphitic carbon nitride and metal oxides. I investigate charge-transfer kinetics and reaction mechanisms for the simultaneous degradation of hazardous organic dyes and reduction of heavy metals in environmental remediation.
My research focuses on the intersection of chemistry and textiles, particularly the valorization of natural materials. I aim to develop sustainable, value-added textile innovations that enhance local resource utilization and support Indonesian micro, small, and medium enterprises (MSMEs) through science-based product development and downstream application.
My research focuses on photocatalytic nanomaterials and their application in pollutant degradation. I investigate the role of these materials in light-driven treatment processes, with an emphasis on photocatalysis for environmental remediation.
My research focuses on catalysis, materials chemistry, and computational chemistry, particularly the development and modification of TiO₂-based catalysts and metal–organic frameworks (MOFs). I integrate molecular docking and Density Functional Theory (DFT), material synthesis, structural and physicochemical characterization, and catalytic activity evaluation for organic compound synthesis and energy applications.
My research focuses on developing sustainable magnetic magadiite-based nanocomposites and heterostructured materials derived from rice husk ash for surfactant-contaminated wastewater treatment. I investigate adsorption mechanisms, pollutant removal, and the integration of adsorption with catalytic regeneration to improve treatment efficiency and material reusability.
My research focuses on sustainable hydrogen production by integrating the Schikorr reaction with photoreduction. I investigate transition-metal catalysts to enhance hydrogen generation and explore photoreduction-based regeneration in Fe₃O₄ systems, aiming to develop an efficient, sustainable hydrogen-production cycle.
My research focuses on developing adsorbents based on porous materials, including alumina, carbon, and metal–organic frameworks (MOFs), for radioisotope production. I investigate their use in the adsorption, separation, and purification of radionuclides.
My research focuses on developing and characterizing functional textiles for environmental applications by incorporating metal oxide-based materials. I investigate their physicochemical properties and surface characteristics, with particular emphasis on photocatalytic and self-cleaning performance evaluated using smartphone-based Digital Image Colorimetry (DIC).
My research focuses on the development, characterization, and application of heterogeneous catalysts for sustainable chemical production. I investigate catalyst design, structure–property relationships, catalytic performance, and reusability, particularly for the conversion of biomass-derived compounds into value-added chemicals. My research aims to contribute to the development of efficient catalytic systems and more sustainable chemical processes.
My research focuses on the synthesis of metal oxide nanomaterials and composites for photocatalytic applications. I am particularly interested in their use for heavy metal remediation and the control of environmental pollution.