Nanospectroscopy highlights
- Nanospectroscopy highlights
- Subfilamentary Networks in Memristive Devices
- Graphene and h-BN by a Single Molecular Precursor
- Fabrication of 2D heterojunction in graphene
- Island Ripening in a catalytic reaction
- Nanobubbles at GPa pressure under graphene
- Edge specific graphene nanoribbons
- Imaging the way molecules desorb from catalysts
- Towards the perfect graphene membrane
- Rippling of graphene on Ir(100)
- Thinnest loadstone ever
- Thermal stability of Graphene on Re(001)
- Stress Engineering at the Nanometer Scale
- Image blur in XPEEM
- AFM domain imaging using LEEM
- ARPES on corrugated graphene
- Corrugation in Exfoliated Graphene
- Domain-Wall Depinning by Spin Currents
- All Pages
Stress Engineering at the Nanometer Scale
Spontaneous formation of periodic patterns is an example of nature's tendency towards order. A class of such structures is induced by surface stress, and has been widely observed on single crystal surfaces. It is well known that the formation of these equilibrium patterns is driven by a competition between interactions at different length scales. The forces in action, due to short-range near-neighbour and long-range dipolar interactions, are of the most general type resulting in very similar phenomena occurring also in magnetic and electrostatic systems. Here, we explore the possibility of controlling the thermal fluctuations by adding a second adspecies to an already stripe-forming system. The idea is based on the slow dynamics in a high-density |
binary lattice gas, which leads to a tendency towards glassy behaviour. In particular, we implement this by dosing small amounts of oxygen on submonolayer Pd/W(110). Retrieve article
Stress engineering at the nanometer scale: Two-component adlayer stripes; |