Conventionally, starting materials traverse through a photochemical and an electrochemical reactor connected in series, likely attributed to a blend of technological and chemical challenges in balancing the rates of the two concurrent transformations . However, from a chemical perspective, the transient nature of species formed in electrophotocatalysis necessitates the simultaneous execution of both the photochemical and electrochemical steps for effective outcomes. Technologically, the paragon reactor must adeptly navigate practical challenges inherent to both photo-and electrochemistry, each presenting its own scalability hurdles. Thus, in a unified reactor, electrodes must be installed while concurrently ensuring adequate illumination of the reaction medium. This implies that technological barriers, such as the Ohmic drop in electrochemistry and the attenuation effect in photochemistry, must be surmounted simultaneously to guarantee process scalability and reproducibility.