Gahyun Bae
Sungkyunkwan University · 環境科学
研究室紹介
Professor Gahyun Bae's research lab specializes in microbial electrochemical systems and anaerobic bioprocesses, focusing on enhancing sustainable energy recovery from organic wastes. The lab investigates microbial electrosynthesis, microbial electrolysis cells (MECs), and anaerobic digestion with an emphasis on improving electron transfer mechanisms, biogas production, and system efficiency. Key research directions include optimizing interspecies electron transfer, developing low-resistance reactor configurations, and applying machine learning to predict and improve MEC performance. The lab also explores co-digestion strategies for challenging waste streams such as cattle manure and fermentation effluents.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
15Anaerobic digestion (AD) is an effective biological treatment for stabilizing organic compounds in waste/wastewater and in simultaneously producing biogas. However, it is often limited by the slow reaction rates of different microorganisms’ syntrophic biological metabolisms. Stable and fast interspecies electron transfer (IET) between volatile fatty acid-oxidizing bacteria and hydrogenotrophic methanogens is crucial for efficient methanogenesis. In this syntrophic interaction, electrons are exch
The management of cattle manure (CM) has become increasingly challenging because its production continues to rise, while the regulations on manure management have become increasingly stringent. In Korea, most farms produce CM as a dry mixture with lignocellulosic bedding materials (mainly sawdust), making it impractical to treat CM by anaerobic digestion. To address this problem, this study examined whether anaerobic co-digestion with food waste (FW) and pig manure (PM) could be an effective app
Microbial electrosynthesis (MES) cells use renewable energy to convert carbon dioxide into valuable chemical products such as methane and acetate, but chemical production rates are low and pH changes can adversely impact biocathodes. To overcome these limitations, an MES reactor was designed with a zero-gap electrode configuration with a cation exchange membrane (CEM) to achieve a low internal resistance, and a vapor-fed electrode to minimize pH changes. Liquid catholyte was pumped through a car