In enclosed spaces, efficient thermal management is essential for maintaining optimal operating conditions. Radiant heating systems, which involve the transfer of heat through infrared radiation, are increasingly utilized in various applications such as industrial facilities, greenhouses, and residential buildings. This study investigates heat and mass transfer dynamics in a local enclosed operating zone under radiant heating conditions. The research focuses on understanding the interaction between heat transfer through radiation, conduction, and convection within the enclosed zone. By developing a mathematical model and conducting experiments, we analyze the impact of different radiant heating setups on the temperature distribution and mass transfer behavior. Our findings reveal that radiant heating provides more uniform temperature distribution compared to conventional heating methods, but it also presents unique challenges in terms of moisture management and air circulation.

Understanding the interaction between biophysical fields and water structure is fundamental for advancing fields such as electrohydrodynamics, environmental science, and biomedical engineering. This study investigates the influence of corona discharge—a form of plasma-based electrical field—on water structure using image-based analysis techniques. Employing high-resolution microscopy and image quantification algorithms, we examined structural changes in water droplets exposed to corona discharge under controlled conditions. The results revealed significant morphological and optical property changes indicative of underlying molecular reorganization. These findings provide new insights into water’s dynamic behavior under biophysical fields and present a methodology for non-invasive analysis of field-induced water modifications.