Antiadhesion
performance, stretchability, and transparency are
highly desirable properties for materials and devices in numerous
applications. However, the existing strategies for imparting materials
with antiadhesion performance generally induce rigidity and opacity,
and principle is yet to be provided for designing materials that combine
these important parameters. Here, we show that four factors including
a low surface energy, appropriate cross-linking, availability of a
homogeneous and amorphous composite, and a smooth material surface
can be used to design an intrinsically stretchable and transparent
polymer film with antiadhesion performance against various liquids
including water, diiodomethane, hexadecane, cooking oil, and pump
oil. The film can be obtained via simply molding a waterborne polymer
network at ambient temperature. Furthermore, the film can retain its
antiadhesion performance and outstanding transparency even when it
is subjected to large mechanical deformations reaching up to 1800%,
and its maximal fracture strain exceeds 3000%. These design concepts
offer a general platform for achieving multiple material functionalities,
and may open new avenues for the surface functionalization of stretchable
materials and devices