Rapid fabrication of superhydrophobic/superaerophilic coatings via flame pyrolysis of PDMS for drag reduction
Peer-Reviewed Publication
Updates every hour. Last Updated: 26-Oct-2026 16:16 ET (26-Oct-2026 20:16 GMT/UTC)
Bionic superhydrophobic (SH) surfaces have promising applications in self-cleaning, corrosion prevention, anti-icing/de-icing, and fluid drag reduction due to their exceptional waterrepellent properties. A key feature of such surfaces is their micronano hierarchical roughness, which entraps air to form a stable interfacial gas layer. This layer effectively converts solid‒liquid contact into a composite gas‒liquid/gas‒solid contact, leading to a notable reduction in fluid resistance.
Thermoelectric materials, which can directly convert a heat flux into electricity via the Seebeck effect, display great potential for recovering low-grade waste heat. In recent years, a new concept termed thermoelectrocatalysis (TECatal) has offered thermoelectric materials a brand-new application scenario: a combination of thermoelectric materials with catalytic processes can directly convert heat flux into chemical energy for the synthesis of high-value chemicals, such as hydrogen peroxide (H2O2).
Controlling interactions between molecules and their functions from the molecular level to the macroscopic scale is challenging in supramolecular chemistry and materials chemistry. To this end, a research team led by Associate Professor Yosuke Tani from WPI-ITbM at Nagoya University and Keisuke Wada from Kyoto University designed a vapor-controlled reversible host–guest chemistry system that controls the optical and physical properties of a functional molecular liquid (FML)—non-volatile fluids that can feature optical, electronic, and catalytic properties. Their research was published in Chemical Science on July 21, 2026.
Disorder is emerging as a powerful design principle in nanophotonics, enabling optical functionalities beyond periodic architectures. Researchers from the University of Florence and the University of Southampton, in collaboration with Eindhoven University of Technology show that hyperuniform disordered photonic networks host an unusually rich modal landscape, combining spectral level repulsion, distinct Anderson and Lifshitz-like localized states, and controlled hybridization of defect modes within a single architecture, opening new routes toward programmable disorder-based photonic devices.