Surfaces, interfaces and thin films

Surfaces, interfaces and thin films are planar structures that occur on the boundary of a material or at the junction between two different media. The physics of these systems is often heavily influenced by their two-dimensional nature.


Latest Research and Reviews

News and Comment

  • News and Views |

    Using electric field gating, researchers demonstrate switching from a single- to a multi-condensate superconducting state at an oxide-based interface, and show that this transition leads to an overall weakening of the superconductivity.

    • H. Hilgenkamp
    •  & A. E. M. Smink
  • News and Views |

    Irradiating a PbTiO3/SrTiO3 superlattice with ultrafast UV light pulses modifies elastic and electrostatic interactions, resulting in the formation of a stable complex 3D supercrystal.

    • J. M. Gregg
    Nature Materials 18, 304-306
  • News and Views |

    Advances in understanding the physics behind remote epitaxy, a technique of growing films that ‘copy’ the substrate crystal structure through 2D material interlayer, facilitates the production of ultrathin components for device heterointegration.

    • Rodolfo Miranda
    Nature Materials 17, 952-953
  • News and Views |

    A graphite and hexagonal boron nitride heterojunction enables superlubric sliding, almost independent of alignment orientation, in micrometre-sized contacts under ‘real-life’ working conditions.

    • J. G. Vilhena
    •  & Rubén Pérez
    Nature Materials 17, 852-854
  • Research Highlights |

    Water–surface interactions are strongly influenced by the polar or non-polar nature of the chemical groups on the surface. Jacob Monroe and Scott Shell used molecular dynamics simulations and genetic algorithms to show that the specific patterns of such functionalities effect water dynamics.

    • Gabriella Graziano
  • News and Views |

    Design principles for the development of silicon biointerfaces enable the non-genetic, light-controlled modulation of intracellular Ca2+ dynamics, and of cellular excitability in vitro, in tissue slices and in mouse brains.

    • Seongjun Park
    • , James A. Frank
    •  & Polina Anikeeva