ABSTRACT

Superhydrophobic surfaces (water contact angles higher than 150a ) can only be achieved by a combination of hydrophobicity (low surface energy materials) with appropriate surface texture. In nature one can find an array of impressive and elegant examples of superhydrophobic surfaces. For example, on a lotus leaf rain drops bounce off after impact,

part |2 pages

Part 1: Fundamentals of Superhydrophobicity

part |2 pages

Part 2: Superhydrophobic Surfaces from Polymers

part |2 pages

Part 3: Superhydrophobic Surfaces from Silanes, Colloids, Particles or Sol–Gel Processes

part |2 pages

Part 5: Applications and New Insights