Data-driven surrogate modelling of multistage Taylor cone–jet dynamics
Published in Physics of Fluids, 2024

Recommended citation: Candido, S. et al. (2024) "Data-driven surrogate modelling of multistage Taylor cone–jet dynamics." Physics of Fluids.
Published in Physics of Fluids, 2024

Recommended citation: Candido, S. et al. (2024) "Data-driven surrogate modelling of multistage Taylor cone–jet dynamics." Physics of Fluids.
Published in International Journal of Engineering Science, 2023

Recommended citation: Candido, S. et al. (2023) "On modal decomposition as surrogate for charge-conservative EHD modelling of Taylor Cone jets." International Journal of Engineering Science.
Published in Physics of Fluids, 2023

Recommended citation: Pendar, M., Cândido, S., Páscoa, J. (2023). " Optimization of painting efficiency applying unique techniques of high-voltage conductors and nitrotherm spray: Developing deep learning models using computational fluid dynamics dataset" Physics of Fluids. 35(7). 10.1063/5.0156571
Published in Physics of Fluids, 2023

Recommended citation: Cândido, S., Páscoa, J. (2023). "Dynamics of three-dimensional electrohydrodynamic instabilities on Taylor cone jets using a numerical approach" Physics of Fluids. 35(5). DOI: 10.1063/5.0151109
Published in Energies, 2023
This study introduces the development of a background-oriented Schlieren (BOS) system, used to explore the thermal effects and potential deicing capabilities of plasma actuators. These actuators are promising devices for dual flow control and deicing purposes, as they transfer momentum to the local airflow and induce significant thermal changes. However, their analysis has been limited due to considerable electromagnetic interference. For the first time, using the BOS system, we investigated the induced flow temperatures across plasma actuators with varied dielectric materials and thicknesses.
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Published in IMECE2021 PROCEEDINGS, 2021

Recommended citation: Candido, S. & Páscoa, JC (2021). "Numerical Simulation of Electrified Liquid Jets Using a Geometrical VoF Method." Proceedings of the ASME 2021 International Mechanical Engineering Congress and Exposition. 10. 10.1115/IMECE2021-69817