Publications
- Kristóf, G., Rácz, N., & Balogh, M. (2009). Adaptation of pressure based CFD solvers for mesoscale atmospheric problems. Boundary-layer meteorology, 131(1), 85-103.
- Rácz, N., Kristóf, G., & Weidinger, T. (2013). Evaluation and validation of a CFD solver adapted to atmospheric flows: Simulation of topography-induced waves. Időjárás, Budapest, 117(3), 239-275.
- Kristóf, G., & Füle, P. (2017). Optimization of urban building patterns for pollution removal efficiency by assuming periodic dispersion. Journal of Wind Engineering and Industrial Aerodynamics, 162, 85-95.
- Kristóf, G., Papp, B., Wang, H., & Hang, J. (2020). Investigation of the flow and dispersion characteristics of repeated orographic structures by assuming transient wind forcing. Journal of Wind Engineering and Industrial Aerodynamics, 197, 104087.
- Salma, I., Németh, Z., Weidinger, T., Kovács, B., & Kristóf, G. (2016). Measurement, growth types and shrinkage of newly formed aerosol particles at an urban research platform. Atmospheric Chemistry & Physics, 16(12).
Awards
2021 The Hungarian Merit the Knight's Cross
Projects
Principal investigator of the following national basic research found (OTKA) projects:
37651 Simulation of turbulent flows
49573 Modelling of formation and control of urban heat islands via computational fluid mechanics
124439 Air-quality oriented urban design strategies
Conferences
2012-2014 PC coordinator of ERCOFTAC Alpe Danube Adria Pilot Centre - organizing two conferences a year
2016 Urban Flow Modelling Workshop, The University of Hong Kong - invited plenary speaker
2016 2nd World Congress on Mechanical, Chemical, and Material Engineering, Budapest - invited plenary speaker
2006 Conference on Modelling Fluid Flow - member of organizing committee
Other activities
Meteorological applications of CFD models, including the flow associated with the heat island phenomenon, wave transport, and the transport of aerosols and other contaminants.
Participation in the model-based development of a compressed air engine charging system in the field of automotive applications, as well as in the doctoral research of András Kadocsa, in the further development of the process model of the primary break-up.
Modeling side-channel pumps with a periodic approach, numerical modeling of swimming pools and industrial fermentors, simulation of bridge flutter, hydraulic optimization of a blood sample analyzer, model-based control of an industrial soldering furnace, and the development of a rock and pore space model (i-CORE).