Titlebook: Contamination Mitigating Polymeric Coatings for Extreme Environments; Christopher J. Wohl,Douglas H. Berry Book 2019 Springer Nature Switz

補(bǔ)角

小木槌

https://doi.org/10.1007/978-3-662-61132-6ndidate coatings are identified, in an extensive test campaign performed under simulated icing and outdoor conditions prevailing in the real environment of the targeted application. Finally, a specific example of a test campaign in which the icephobic coatings are exposed to Arctic offshore conditions is presented.

lactic

Aerospace and Marine Environments as Design Spaces for Contamination-Mitigating Polymeric Coatings,aximum ice adhesion strength to anti-contamination coatings allowing passive ice removal by wind or vibration. Modeling ice as a cantilever beam on a coating surface in a wind stream indicates that the benchmark value is dependent on the assumed shape of the ice that needs to be removed.

cognizant

Influence of Topography on Adhesion and Bioadhesiont the attachment abilities of bioadhesive systems are dramatically reduced below a critical roughness. Based on this and other principles borrowed from nature, strategies can be pursued to create anti-adhesive surfaces via manipulating the surface topography of the substrate.

uveitis

Verify

majestic

https://doi.org/10.1007/978-3-662-62157-8also adequate test methods. This chapter describes the development process and results of these activities, as well as proposals to improve efficiency further in the future development of icephobic materials.

Water-Brash

misshapen

Pudendal-Nerve