Publications by authors named "Elliot S Wood"

Compact self-assembled monolayers (SAMs) of perfluorododecyl iodide (I-PFC12) of reproducible thickness (1.2 nm) are shown to form on silicon wafers. The SAMs have a high fluorine content (95%) and convey an extremely low surface energy to the silicon wafers (4.

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We report the fabrication of both single-scale and hierarchical superhydrophobic surfaces, created by exploiting the spontaneous wrinkling of a rigid Teflon AF film on two types of shrinkable plastic substrates. Sub-100 nm to micrometric wrinkles were reproducibly generated by this simple process, with remarkable control over the size and hierarchy. Hierarchical Teflon AF wrinkled surfaces showed extremely high water repellence (contact angle 172°) and very low contact angle hysteresis (2°), resulting in droplets rolling off the surface at tilt angles lower than 5°.

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Synopsis of recent research by authors named "Elliot S Wood"

  • - Elliot S Wood's research primarily focuses on the development and characterization of advanced surface modification techniques, particularly utilizing self-assembled monolayers (SAMs) and the manipulation of material properties to achieve superhydrophobic surfaces.
  • - In his 2019 study, Wood demonstrated the creation of ultralow surface energy SAMs composed of iodo-perfluorinated alkanes on silica, achieving highly reproducible monolayer thickness and exceptionally low surface energy, indicating potential applications in anti-adhesion technologies.
  • - His earlier work from 2016 highlighted the use of Teflon AF to create durable superhydrophobic surfaces through spontaneous wrinkling, showcasing the control over surface morphology, which resulted in impressive water-repellent properties, with water droplets easily rolling off the surface at minimal tilt angles.