During the impact of the drop train the maximum contact line radius increases and both the spreading and receding phases of the drop impact process are prolonged with each consecutive drop impact. After the impact of ten drops the so-called puddle thickness, which describes the thickness of a large sessile drop in case where gravitation dominates, is reached. Just after the impact of the initial drop, the wall temperature decreases to the contact temperature. All further drops lead to a lower decrease in wall temperature compared to the first drop. For our study, the liquid film thickness, formed by the previous impacted drops, has no influence on the wall temperature decrease. By comparing drop train configurations with different drop generation frequencies and drop sizes, but each drop train with the same total kinetic energy and flow rate, it has been shown that large drops impacting with low drop frequency transfer more heat than small drops impacting with high drop frequency. This can be attributed to the drastic changes in Reynolds and Weber numbers. The final drop shape depends only on the total liquid volume and not on the drop train configuration. The study of the single drop impact onto textured surfaces shows that the textures prevent a receding of the drop. This results in a large wetted are over a long time period and hence heat transfer is expected to be high. Additionally, the final liquid height matches the texture height. As a consequence, small and low textures lead to larger wetted areas as large and high textures. Drop impact onto grooves leads to asymmetric drop spreading. The drop spreading in the grooves is driven by capillary forces and follows a power law.