Location
Room # EB204
Start Date
5-6-2019 11:10 AM
Description
An analytical model is developed to quantify the heat transfer to droplets impinging on heated superhydrophobic surfaces. Integral analysis is used to incorporate the apparent temperature jump at the superhydrophobic surface as a boundary condition. This model is combined with a fluid model which incorporates velocity slip to calculate the cooling effectiveness, a metric outlined in contemporary work. The effect of varying velocity slip and temperature jump is analyzed for different impact Weber numbers and contact angles for surface temperatures below 100 _C. Heat transfer to the drop on superhydrophobic surfaces is decreased when compared to conventional surfaces.
Thermal Transport to Droplets Impinging on Heated, Superhydrophobic Surfaces
Room # EB204
An analytical model is developed to quantify the heat transfer to droplets impinging on heated superhydrophobic surfaces. Integral analysis is used to incorporate the apparent temperature jump at the superhydrophobic surface as a boundary condition. This model is combined with a fluid model which incorporates velocity slip to calculate the cooling effectiveness, a metric outlined in contemporary work. The effect of varying velocity slip and temperature jump is analyzed for different impact Weber numbers and contact angles for surface temperatures below 100 _C. Heat transfer to the drop on superhydrophobic surfaces is decreased when compared to conventional surfaces.
Comments
Session 6