Thermofluid modelling of direct air capture systems

This role focuses on thermofluid modeling specifically applied to direct air capture (DAC) systems, which are technologies designed to remove CO2 directly from the atmosphere. Candidates should have expertise in thermodynamics, fluid mechanics, and heat and mass transfer principles to accurately simulate and analyze the behavior of air and fluids within DAC processes. Proficiency in computational fluid dynamics (CFD) software and numerical modeling tools is essential to develop and validate models that predict system performance under various operating conditions. Experience with system-level simulation and optimization techniques will be valuable to enhance the efficiency and scalability of DAC technologies. Knowledge of chemical engineering fundamentals related to gas absorption and separation processes is beneficial. Familiarity with environmental engineering concepts and climate change mitigation strategies may also be relevant. Strong analytical and problem-solving skills are required to interpret modeling results and guide design improvements. Although no explicit experience or education levels are provided, this position likely requires an advanced understanding of thermofluid sciences, typically supported by a degree in mechanical, chemical, or environmental engineering or a related field. The role may involve interdisciplinary collaboration, so good communication skills and the ability to work within a research or development team are advantageous. Overall, the ideal candidate will combine theoretical knowledge with practical modeling expertise to contribute to the advancement of direct air capture technologies through detailed thermofluid analysis.