Do you want to avoid another lockdown at the next pandemic? Do you want to improve our indoor environment in which we spent ~90% of our time? This PhD research, as part of a larger project, may initiate a paradigm shift in how we ventilate our buildings. Interested in this exciting challenge? Then please apply.
Job Description Though it seems that corona is something from the past, what we have learned is that there is still a lot of research needed in order to be better prepared for the next pandemic, and that we can only achieve our research goals in a multi-disciplinary way. The MIST project (MItigation STrategies for Airborne Infection Control) has been initiated to do just that. It is a large project in which many disciplines work together to improve our understanding of the spread of pathogens in the air and the risk of infection. As it also connects with practice, its outcomes are expected to have direct impact as well.
In this subproject of MIST our focus is on ventilation and air cleaning and specifically on ways to improve the effectiveness. We know that the mere assumption of a mixed ventilation situation in rooms is not correct, and it also does not support the exposure close to persons. The research therefore should identify the potential that local ventilation and air cleaning solutions may have in reducing the risk of infection and come up with potential design concepts that manufacturers may develop further. The main method for this research will be numerical modeling, i.e. Computational Fluid Dynamics (CFD) simulations. Some experimental work will be required to obtain data for validation purposes and testing.
In this project you will analyze the options for local mitigation of infection risk through ventilation and/or air cleaning. Aside from a theoretical analysis of the problem, literature review and consultation with the involved manufacturers will show the initial potential and possible solution directions. Based on this information you will develop cases for the detailed analysis of some potential solutions, or improvement, thereof. CFD will be your main tool for such analysis, but it will need to be supported with experimental information. For both CFD and experiments careful consideration of the methods and applied simplifications will be required.
During your work you will be positioned in the Building Physics and
Building Performance research group at our department. In these groups another PhD student and several Postdocs will be working on related issues that deal with ventilation/air cleaning in the context of infection risk. In addition, the groups have several PhDs and postdocs working on other research projects related to ventilation, IAQ, and general building performance. Besides being well embedded in this research environment at TU/e, you will exchange information and results within the MIST project, that encompasses 7 other PhD students and several Postdocs.
The research groups in which you will reside are well-equipped, with ample high-performance computing facilities and access to relevant software packages, and a state-of-the-art laboratory, encompassing a large variety of measurement equipment and a climate chamber for controlled experiments. The group also works closely with the department of Applied Physics. An additional PhD student will be active in the project that resides at both departments. The groups, furthermore, have close contacts with the HVAC industry and are frequently cooperating with other researchers, both domestic and international.